Differential geometry is a subject related to many fields in mathematics and the sciences. The authors of this book provide a vertically integrated introduction to differential geometry and geometric analysis. The material is presented in three distinct parts: an introduction to geometry via submanifolds of Euclidean space, a first course in Riemannian geometry, and a graduate special topics course in geometric analysis, and it contains more than enough content to serve as a good textbook for a course in any of these three topics. The reader will learn about the classical theory of submanifolds, smooth manifolds, Riemannian comparison geometry, bundles, connections, and curvature, the Chern–Gauss–Bonnet formula, harmonic functions, eigenfunctions, and eigenvalues on Riemannian manifolds, minimal surfaces, the curve shortening flow, and the Ricci flow on surfaces. This will provide a pathway to further topics in geometric analysis such as Ricci flow, used by Hamilton and Perelman to solve the Poincaré and Thurston geometrization conjectures, mean curvature flow, and minimal submanifolds. The book is primarily aimed at graduate students in geometric analysis, but it will also be of interest to postdoctoral researchers and established mathematicians looking for a refresher or deeper exploration of the topic.
Author(s): Bennett Chow, Yutze Chow
Series: Graduate Studies in Mathematics; 245
Publisher: American Mathematical Society
Year: 2024
Language: English
Pages: 725
Dedication
Contents
Preface
Suggested Topics for Courses
Notation and Symbols
Part I. Geometry of Submanifolds of Euclidean Space
1. Intuitive Introduction to Submanifolds in Euclidean Space
2. Differential Calculus of Submanifolds
3. Linearizing Submanifolds: Tangent and Tensor Bundles
4. Curvature and the Local Geometry of Submanifolds
5. Global Theorems in the Theory of Submanifolds
Part II. Differential Topology and Riemannian Geometry
6. Smooth Manifolds
7. Riemannian Manifolds
8. Differential Forms and the Method of Moving Frames on Manifolds
9. The Gauss–Bonnet and Poincaré–Hopf Theorems
10. Bundles and the Chern–Gauss–Bonnet Formula
Part III. Elliptic and Parabolic Equations in Geometric Analysis
11. Linear Elliptic and Parabolic Equations
12. Elliptic Equations and the Geometry of Minimal Surfaces
13. Geometric Flows of Curves in the Plane
14. Uniformization of Surfaces via Heat Flow
Bibliography
Index